Abstract: A liquid crystal display device includes a TFT substrate, a color filter substrate, liquid crystals, a transparent conductive film, a panel identification pad, and conductive paste. The color filter substrate is opposed to the TFT substrate and has a color filter. The liquid crystals are sealed between the TFT substrate and the color filter substrate. The transparent conductive film is located on a front surface side of the color filter substrate including a periphery of the color filter substrate. The panel identification pad is located on a terminal area that is a portion of the TFT substrate extending beyond the color filter substrate. The panel identification panel is conductive and connected to a ground potential. The conductive paste electrically connects the panel identification pad with the transparent conductive film located on the periphery of the color filter substrate.

Abstract: A liquid crystal display apparatus includes a conductive paste, which connects a connection pad in a TFT array substrate and a transparent conductive film in a color filter substrate, and a ridge which is disposed adjacent to a conductive paste in a surrounding region of the TFT array substrate. A sealing member located between the color filter substrate and the TFT array substrate convexly extends in a direction from a display region to a surrounding region to form the ridge.

Abstract: In a program execution device (100X), a memory (110) stores first information (101X) specifying one or more programs, and second information (102X) specifying some programs including at least one of programs to be executed by an other program execution device (100Y), out of the programs specified by the first information (101X) and the programs to be executed by the other program execution device (100Y). When an error in the other program execution device (100Y) is not detected by an error processing unit (123), an instruction processing unit (120) executes the programs specified by the first information (101X). When the error in the other program execution device (100Y) is detected by the error processing unit (123), the instruction processing unit (120) executes the programs specified by the second information (102X).

Abstract: An electrooptic display device includes a TFT substrate, a touch panel superimposed and placed on the TFT substrate, a circuit board spaced apart from the TFT substrate and the touch panel, one side of the circuit board facing the TFT substrate and the touch panel, a plurality of first FPCs each including one end electrically connected to one side of the TFT substrate, and the other end electrically connected to one side of the circuit board, and a second FPC that is electrically connected to the touch panel and extends in parallel to the first FPCs. The circuit board includes a cutout in a portion overlapping the second FPC on one side of the circuit board.

Abstract: A liquid crystal display device includes: a first substrate which includes a display region, in which scan wirings and signal wirings intersecting with scan wirings are formed, and a frame region, which surrounds the display region, wherein a lead-out wiring extending from at least one of the signal wiring and the scan wiring and a ground electrode on an insulating layer covering the lead-out wiring are formed in the frame region; a second substrate, which faces the first substrate with interposing a seal, wherein a transparent conductive film is formed on a surface opposite to a side where the liquid crystal is provided; and a conductive member, which is formed to extend across the first substrate and the second substrate to electrically connect the transparent conductive film with the ground electrode, wherein the ground electrode overlaps with at least one of the lead-out wirings.

Abstract: A liquid crystal display device includes a TFT substrate, a color filter substrate, liquid crystals, a transparent conductive film, a panel identification pad, and conductive paste. The color filter substrate is opposed to the TFT substrate and has a color filter. The liquid crystals are sealed between the TFT substrate and the color filter substrate. The transparent conductive film is located on a front surface side of the color filter substrate including a periphery of the color filter substrate. The panel identification pad is located on a terminal area that is a portion of the TFT substrate extending beyond the color filter substrate. The panel identification panel is conductive and connected to a ground potential. The conductive paste electrically connects the panel identification pad with the transparent conductive film located on the periphery of the color filter substrate.

Abstract: A method for manufacturing a semiconductor laser of the present invention includes a step of forming an insulating film on a surface of a grooved semiconductor substrate, a step of pasting an insulating sheet to a top surface of the insulating film so as to cover an opening of the groove and forming an insulating layer on the semiconductor substrate, a step of forming an opening of providing a first opening in the insulating layer so that a part corresponding to an electrode of the semiconductor substrate is exposed and a step of forming the electrode on a top surface of the insulating layer so as to fill the first opening.

Abstract: An electro-optical display device according to the present invention includes a TFT substrate having a first electrode; a flexible circuit substrate extended in such a way as to protrude outwardly from the TFT substrate, wherein a second electrode is formed at the flexible circuit substrate and is connected to the electrode; a reinforcement plate which is extended from the TFT substrate to the flexible circuit substrate in such a way as to cover portions of the first electrode and the second electrode which are connected to each other and, further, is protruded from the flexible circuit substrate; and a resin formed to extend over a portion of a surface of the flexible circuit substrate which is protruded from the substrate, a portion of a surface of the reinforcement plate which is protruded from the flexible circuit substrate, and an end surface of the TFT substrate.

Abstract: A liquid crystal display device includes: a first substrate which includes a display region, in which scan wirings and signal wirings intersecting with scan wirings are formed, and a frame region, which surrounds the display region, wherein a lead-out wiring extending from at least one of the signal wiring and the scan wiring and a ground electrode on an insulating layer covering the lead-out wiring are formed in the frame region; a second substrate, which faces the first substrate with interposing a seal, wherein a transparent conductive film is formed on a surface opposite to a side where the liquid crystal is provided; and a conductive member, which is formed to extend across the first substrate and the second substrate to electrically connect the transparent conductive film with the ground electrode, wherein the ground electrode overlaps with at least one of the lead-out wirings.

Abstract: A method for manufacturing a semiconductor laser of the present invention includes a step of forming an insulating film on a surface of a grooved semiconductor substrate, a step of pasting an insulating sheet to a top surface of the insulating film so as to cover an opening of the groove and forming an insulating layer on the semiconductor substrate, a step of forming an opening of providing a first opening in the insulating layer so that a part corresponding to an electrode of the semiconductor substrate is exposed and a step of forming the electrode on a top surface of the insulating layer so as to fill the first opening.

Abstract: An electro-optical display device according to the present invention includes a TFT substrate having a first electrode; a flexible circuit substrate extended in such a way as to protrude outwardly from the TFT substrate, wherein a second electrode is formed at the flexible circuit substrate and is connected to the electrode; a reinforcement plate which is extended from the TFT substrate to the flexible circuit substrate in such a way as to cover portions of the first electrode and the second electrode which are connected to each other and, further, is protruded from the flexible circuit substrate; and a resin formed to extend over a portion of a surface of the flexible circuit substrate which is protruded from the substrate, a portion of a surface of the reinforcement plate which is protruded from the flexible circuit substrate, and an end surface of the TFT substrate.

Abstract: The optical measurement method comprises acquiring a spectrum of interference light produced by interference between back-reflected light from an object to be measured including a plurality of tissues and reference light; creating a two-dimensional reflectance image of the object to be measured according to the spectrum of the interference light; extracting regions occupied by the tissues and a boundary between the tissues in the reflectance image created; setting a range to be analyzed and a spatial averaging range according to the regions and boundary; averaging a concentration distribution of a component obtained in the spatial averaging range including the pixel and taking the average as a concentration of the component at the pixel, so as to calculate a concentration distribution of the component in the tissues; and classifying tissue type according to the extracted regions and concentration distribution, so as to generate a tissue classification image.

Abstract: A liquid crystal display apparatus includes: a color filter substrate including a first transparent, which has: an anti-static transparent conductive layer; and a light shield layer that shields light; a TFT substrate including a second transparent substrate facing the color filter substrate, and which has: a projecting part that projects beyond an end face of the color filter substrate; a conductive tape, which is stuck from an upper part of the color filter substrate to an upper part of the TFT substrate, wherein the light shield layer has a notch having an opening at the end side of the color filter substrate, wherein the conductive tape is arranged adjacent to or partially overlapping with the light shield layer, wherein the notch is provided at a connection part, and wherein a light transmission part capable of light transmitting is provided to the connection part.

Abstract: A liquid crystal display apparatus includes: a color filter substrate including a first transparent, which has: an anti-static transparent conductive layer; and a light shield layer that shields light; a TFT substrate including a second transparent substrate facing the color filter substrate, and which has: a projecting part that projects beyond an end face of the color filter substrate; a conductive tape, which is stuck from an upper part of the color filter substrate to an upper part of the TFT substrate, wherein the light shield layer has a notch having an opening at the end side of the color filter substrate, wherein the conductive tape is arranged adjacent to or partially overlapping with the light shield layer, wherein the notch is provided at a connection part, and wherein a light transmission part capable of light transmitting is provided to the connection part.

Abstract: To provide a plasma display panel of improving a discharge time-lag. A plasma display panel of the present invention is characterized in that it comprises a pair of substrate assemblies opposed to each other sandwiching discharge spaces formed to seal a discharge gas therein, wherein one of the pair of substrate assemblies comprises: display electrodes arranged on a substrate; a dielectric layer for covering the display electrodes; and a protective layer for covering the dielectric layer, and the protective layer is configured so that a plurality of MgO single crystals are adhered to an MgO film in such a manner that crystal orientations of the plurality of MgO single crystals are aligned in one direction.

Abstract: It is an object of the present invention to provide a plasma display panel with an improved panel structure for improving a discharge time-lag and, more particularly, to provide a plasma display panel with a new protective film structure, the plasma display panel having uniformed panel properties suitable for mass production with a high yield.

Abstract: A rotation sensor includes a first rotor constituted by a magnetic material and having an outer face that has first conductive layers disposed in two levels as viewed in the direction of a rotation axis and second conductive layers disposed outwardly of and between the first conductive layers, a second rotor having metal members corresponding to the first conductive layers of the first rotor, and a stationary core having a stationary core body that accommodates therein two exciting coils that are spaced from each other in the direction of the rotation axis. The second rotor is disposed between the first rotor mounted to a first shaft and the stationary core fixed to a stationary member, and is mounted to a second shaft which is rotatable relative to the first shaft.

Abstract: A TGF-? gene expression inhibitor containing a pyrrole-immidazole polyamide comprising an N-methylpyrrole unit (hereinafter also referred to as Py), an N-methylimidazole unit (hereinafter also referred to as Im) and a ?-aminobutyric acid unit which can be folded into an U-shaped conformation at the above-described ?-aminobutyric acid unit site in a minor groove of a double-stranded region (hereinafter referred to as the target region) containing a part or the whole of the following base sequence (SEQ ID NO: 2) corresponding to ?450 to ?310 of human transforming growth factor ?1 (hereinafter also referred to as h TGF-?1) promoter and a strand complementary thereto and in which a Py/Im pair, an Im/Py pair and a PY/Py pair correspond respectively to a C-G base pair, a G-C base pair and an A-T base pair and a T-A base pair.

Abstract: Provided is a ribozyme to cleave a coronavirus gene and a therapeutic agent for a coronavirus infectious disease. A common base sequence in coronaviruses such as SARS-CoV and MHV was searched to design a ribozyme including a base sequence complementary thereto. Moreover, a therapeutic agent for a coronavirus infectious disease including such ribozyme was obtained.

Abstract: A refrigerator includes: a storage compartment that is separated and heat-insulated from another area; an atomization device having an electrode unit that sprays mist into the storage compartment; and a protection unit that improves safety of a user.